A system for communicating images, comprises an imaging device configured to capture and image and generate a digital image file, the imaging device comprising a device identifier; a set of routines configured to label the digital image file, associated account information with the digital image file, associate the device identifier with the digital image file, and communicate the digital image file to a server; a server configured to receive digital image files and process the digital image file according to at least one of a label associated with the digital image file, account information associated with the digital image file, and a device identifier associated with a device that captured the digital image file.
Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
2. The dongle of claim 1, wherein the communication interface comprises an Ethernet port.
A dongle is provided for interfacing with a computing device to enable secure communication. The dongle includes a communication interface that facilitates data exchange between the computing device and an external network. The communication interface includes an Ethernet port, allowing wired network connectivity. The dongle also contains a processor configured to execute security protocols, such as encryption and authentication, to protect data transmitted through the Ethernet port. Additionally, the dongle may include a memory module for storing security keys, certificates, or other credentials required for secure communication. The processor may further manage network traffic, prioritize data packets, or enforce access control policies to enhance security. The dongle may also support additional communication protocols or interfaces, such as USB or Wi-Fi, to provide flexibility in connectivity options. The design ensures compatibility with various computing devices while maintaining robust security measures for network communications.
3. The dongle of claim 1, wherein the communication interface comprises a Wi-Fi interface.
A dongle is provided for interfacing with a vehicle's onboard diagnostic (OBD) system. The dongle connects to the OBD port of a vehicle and communicates with a remote server to transmit diagnostic data. The dongle includes a communication interface that enables wireless data transfer, specifically through a Wi-Fi interface. This allows the dongle to establish a connection with a local network or directly with a mobile device, facilitating real-time monitoring and diagnostics of the vehicle's systems. The Wi-Fi interface ensures reliable and high-speed data transmission, enabling seamless communication between the dongle, the vehicle, and external systems. The dongle may also include additional features such as data processing capabilities to analyze diagnostic information before transmission, ensuring efficient and secure data handling. The use of Wi-Fi enhances flexibility, allowing the dongle to operate in various environments without requiring a direct physical connection to a mobile device or computer. This technology addresses the need for remote vehicle diagnostics, enabling users to monitor vehicle health and performance from a distance, improving maintenance efficiency and reducing downtime.
4. The dongle of claim 1, wherein the communication interface comprises a cellular interface.
A dongle is provided for enhancing the connectivity of a computing device, particularly in environments where traditional network access is limited or unavailable. The dongle includes a communication interface that enables wireless data transmission between the computing device and a remote server. This interface supports cellular communication, allowing the dongle to establish a direct connection to a cellular network, thereby providing internet access or other network services to the computing device. The dongle may also include additional features such as encryption for secure data transfer, power management to optimize battery life, and compatibility with various computing devices. By integrating cellular connectivity, the dongle ensures reliable communication even in areas with poor or no Wi-Fi coverage, addressing the need for consistent network access in mobile or remote settings. The design may further include modular components to support different cellular standards or protocols, ensuring broad compatibility across global networks. This solution is particularly useful for applications requiring uninterrupted connectivity, such as remote work, IoT devices, or emergency communications.
5. The dongle of claim 1, wherein the destination consists of a single remote server.
A dongle is provided for secure data transmission between a local device and a remote server. The dongle includes a processor, a memory storing executable instructions, and a communication interface for connecting to the local device and the remote server. The dongle is configured to receive data from the local device, encrypt the data using a cryptographic algorithm, and transmit the encrypted data to the remote server. The dongle also decrypts data received from the remote server and forwards it to the local device. The cryptographic algorithm may include symmetric or asymmetric encryption methods to ensure data confidentiality and integrity. The dongle may also authenticate the remote server before establishing a secure communication channel. The remote server is the sole destination for the encrypted data, ensuring centralized and controlled data handling. The dongle may further include a user interface for configuring encryption settings, server addresses, or authentication parameters. The system ensures secure data exchange between the local device and the remote server, preventing unauthorized access or interception during transmission.
6. The dongle of claim 1, wherein the format is Digital Imaging and Communications in Medicine (DICOM) format.
A dongle is provided for interfacing with medical imaging systems, specifically designed to handle data in the Digital Imaging and Communications in Medicine (DICOM) format. The dongle facilitates the secure and standardized transfer, storage, and processing of medical images and related metadata, ensuring compatibility with DICOM-compliant devices and software. This format is widely used in healthcare for diagnostic imaging, enabling seamless integration with picture archiving and communication systems (PACS), radiology workflows, and electronic health records. The dongle may include hardware and software components to encode, decode, or convert DICOM data, ensuring interoperability between different medical imaging systems. Additionally, it may support encryption, authentication, and data integrity checks to protect sensitive patient information during transmission and storage. The dongle's DICOM compatibility ensures that medical images and associated data are accurately preserved and accessible across healthcare networks, improving diagnostic accuracy and patient care. This solution addresses the need for reliable, standardized data handling in medical imaging environments, reducing errors and enhancing workflow efficiency.
7. The dongle of claim 1, wherein the set of routines is further configured to, in response to detecting the medical image data, determine a type of encryption based on the destination, and wherein the converted medical image data is encrypted according to the determined type of encryption.
A dongle for secure medical image data transmission includes a set of routines that process and encrypt medical image data before transmission to a destination. The dongle receives medical image data from a medical imaging device, such as an MRI or CT scanner, and converts the data into a standardized format compatible with the destination system. The routines detect the medical image data and determine the appropriate encryption type based on the destination's requirements. The converted data is then encrypted according to the determined encryption type before being transmitted to the destination. This ensures secure and compliant data transfer, addressing the need for protecting sensitive medical information during transmission. The dongle may also include additional routines for data compression, error correction, or protocol conversion to further enhance transmission reliability and efficiency. The system is designed to integrate seamlessly with existing medical imaging workflows while maintaining high security standards.
8. The dongle of claim 1, wherein the destination comprises a remote server on a remote network, and wherein the encrypted and converted medical image data are transmitted to the remote server over the remote network.
This invention relates to a medical image processing dongle designed to enhance data security and interoperability in medical imaging systems. The dongle is a hardware device that interfaces with medical imaging equipment to encrypt and convert medical image data before transmission to a destination, such as a remote server on a remote network. The dongle includes a processor configured to receive medical image data from a medical imaging device, encrypt the data to ensure confidentiality, and convert the data into a standardized format compatible with different medical imaging systems. The encrypted and converted data is then transmitted to the remote server over the remote network, enabling secure and seamless data exchange between disparate medical imaging systems. This solution addresses the challenge of securely transmitting medical image data across networks while maintaining compatibility with various imaging systems, ensuring data integrity and interoperability in healthcare environments. The dongle's encryption and conversion capabilities mitigate risks associated with unauthorized access and data loss during transmission, making it suitable for use in hospitals, clinics, and other healthcare facilities.
9. The dongle of claim 1, wherein monitoring the medical data comprises listening on one or more ports for unprotected communications.
A medical data monitoring system includes a dongle that connects to a medical device and monitors medical data transmitted between the device and a network. The dongle is designed to detect security vulnerabilities in the communication protocols used by medical devices, which are often outdated or unsecured, making them susceptible to cyberattacks. The dongle passively listens on one or more network ports to identify unprotected communications, such as unencrypted data transmissions or weak authentication methods. By analyzing these communications, the system can alert healthcare providers or administrators to potential security risks, allowing them to implement protective measures. The dongle may also log the monitored data for further analysis or compliance reporting. This solution addresses the critical need for enhanced cybersecurity in medical environments, where compromised devices could lead to patient harm or data breaches. The system is particularly useful in hospitals and clinics where legacy medical devices with outdated security features are still in use.
11. The dongle of claim 10, wherein the set of routines is further configured to calculate the private key using the labeling and the account information as inputs.
A dongle is provided for secure cryptographic operations, particularly in systems requiring authentication and key management. The dongle includes a set of routines that generate a private key based on account information and a labeling input. The labeling input may include metadata or identifiers associated with the account, such as a user ID, device ID, or transaction context. The account information may include credentials, public keys, or other authentication data. The private key is derived from these inputs using cryptographic algorithms, ensuring that the key is unique to the specific account and labeling context. This approach enhances security by preventing unauthorized access or key reuse, as the private key is dynamically generated rather than stored. The dongle may also include additional routines for encryption, decryption, or digital signature generation, leveraging the derived private key for secure operations. The system is particularly useful in environments where secure authentication, data integrity, or non-repudiation is required, such as financial transactions, digital signatures, or access control systems. The dynamic key generation reduces the risk of key compromise, as the private key is not stored persistently but is instead computed on-demand.
Cooperative Patent Classification codes for this invention. Click any code to explore related patents in that topic.
September 20, 2022
April 2, 2024
Browse 5M+ US patents with plain-English claim translations and AI-generated analysis.